Arthroscopy Related Orthopedics Thesis Topics

arthroscopy related thesis topics in orthopedics

This page brings together clinically feasible arthroscopy thesis topics for MS Orthopaedics across the knee, shoulder, ankle, hip, elbow and wrist, with emphasis on diagnostic correlation, lesion classification, operative findings and short-term functional outcomes. The designs are intended for MS Orthopaedics candidates and can usually be completed within one thesis period using patients already undergoing routine orthopaedic evaluation, imaging and arthroscopy at the study centre. The strongest projects define the reference standard, operative documentation and outcome instrument before recruitment begins. A selected topic can then be converted into a structured arthroscopy research topic for MS Orthopaedics, MS Orthopaedics arthroscopy protocol and MS Orthopaedics arthroscopy synopsis.

Last reviewed and updated: September 2026 · 2026–27 admissions

Knee joint

  1. Correlation of MRI findings with arthroscopic findings in patients with suspected meniscal tears of the knee.
  2. Diagnostic accuracy of clinical examination versus MRI for medial meniscus tears using arthroscopy as the reference standard.
  3. Diagnostic accuracy of clinical examination versus MRI for lateral meniscus tears using arthroscopy as the reference standard.
  4. Correlation between MRI grading of meniscal tears and arthroscopic tear morphology in patients undergoing knee arthroscopy.
  5. Arthroscopic pattern and anatomical distribution of meniscal tears in patients presenting with traumatic knee injuries: a cross-sectional study.
  6. Association between mechanism of knee injury and arthroscopic pattern of meniscal tear.
  7. Relationship between duration of symptoms and arthroscopic severity of meniscal lesions in patients undergoing knee arthroscopy.
  8. Comparison of functional status in patients with isolated medial versus isolated lateral meniscal tears undergoing arthroscopy.
  9. Association of meniscal tear morphology with preoperative pain and functional scores in arthroscopically confirmed meniscal injuries.
  10. Short-term functional outcome following arthroscopic partial meniscectomy for isolated meniscal tears: a prospective observational study.
  11. Short-term clinical outcome following arthroscopic meniscal repair in traumatic peripheral meniscal tears.
  12. Comparison of short-term outcomes between arthroscopic meniscal repair and partial meniscectomy in selected traumatic meniscal tears.
  13. Factors associated with poor short-term functional outcome after arthroscopic partial meniscectomy.
  14. Correlation between arthroscopic cartilage status and postoperative functional outcome following partial meniscectomy.
  15. Interobserver agreement in arthroscopic classification of meniscal tear morphology among orthopaedic surgeons.
  16. Prevalence and arthroscopic characteristics of ramp lesions in patients undergoing anterior cruciate ligament reconstruction.
  17. Diagnostic accuracy of MRI for detecting ramp lesions using arthroscopy as the reference standard.
  18. Association between chronicity of anterior cruciate ligament injury and prevalence of ramp lesions at arthroscopy.
  19. Prevalence of meniscal root tears among patients undergoing knee arthroscopy and their associated clinical factors.
  20. Diagnostic accuracy of MRI for medial meniscus posterior root tears compared with arthroscopic findings.
  21. Arthroscopic pattern of associated intra-articular injuries in patients with anterior cruciate ligament tears.
  22. Correlation between duration since anterior cruciate ligament injury and arthroscopic prevalence of meniscal and chondral lesions.
  23. Comparison of arthroscopic findings in acute versus chronic anterior cruciate ligament injuries.
  24. Association between patient age and arthroscopic pattern of secondary intra-articular damage in anterior cruciate ligament-deficient knees.
  25. Correlation of Lachman and pivot-shift grades with arthroscopic morphology of anterior cruciate ligament tears.
  26. Diagnostic accuracy of MRI in detecting partial anterior cruciate ligament tears using arthroscopy as reference.
  27. Arthroscopic morphology of partial anterior cruciate ligament tears and its relationship with clinical instability.
  28. Short-term functional outcome following arthroscopic anterior cruciate ligament reconstruction: a prospective observational study.
  29. Factors associated with early functional recovery following arthroscopic anterior cruciate ligament reconstruction.
  30. Correlation between preoperative quadriceps strength and short-term functional recovery after arthroscopic anterior cruciate ligament reconstruction.
  31. Relationship between tunnel position on postoperative imaging and short-term functional outcome following arthroscopic anterior cruciate ligament reconstruction.
  32. Comparison of early outcomes of patients undergoing arthroscopic anterior cruciate ligament reconstruction with and without associated meniscal procedures.
  33. Incidence and risk factors for early postoperative knee stiffness after arthroscopic anterior cruciate ligament reconstruction.
  34. Arthroscopic prevalence and distribution of chondral lesions in patients with anterior cruciate ligament-deficient knees.
  35. Correlation between MRI grading and arthroscopic grading of articular cartilage lesions of the knee.
  36. Diagnostic accuracy of MRI for focal chondral lesions using arthroscopy as the reference standard.
  37. Interobserver agreement in arthroscopic grading of knee cartilage lesions using the International Cartilage Repair Society classification.
  38. Association of body mass index with arthroscopic severity of chondral lesions in patients undergoing knee arthroscopy.
  39. Association between age and anatomical distribution of cartilage lesions identified during knee arthroscopy.
  40. Correlation between patellofemoral symptoms and arthroscopic grading of patellar and trochlear cartilage lesions.
  41. Arthroscopic spectrum of loose bodies of the knee and their underlying pathological conditions: a retrospective observational study.
  42. Clinical and imaging predictors of intra-articular loose bodies confirmed during knee arthroscopy.
  43. Short-term functional outcome following arthroscopic removal of symptomatic loose bodies of the knee.
  44. Arthroscopic findings in patients with persistent mechanical knee symptoms despite inconclusive MRI.
  45. Diagnostic yield of knee arthroscopy in patients with persistent unexplained pain and mechanical symptoms.
  46. Arthroscopic spectrum of synovial disorders of the knee: a cross-sectional observational study.
  47. Correlation between MRI features and arthroscopic findings in patients with suspected synovial disorders of the knee.
  48. Arthroscopic characteristics of synovitis and their correlation with preoperative inflammatory markers.
  49. Short-term clinical outcome following arthroscopic synovectomy for chronic symptomatic knee synovitis.
  50. Clinicoradiological predictors of significant intra-articular pathology in patients undergoing diagnostic knee arthroscopy.

Shoulder joint

  1. Correlation between MRI findings and arthroscopic findings in patients with suspected rotator cuff tears.
  2. Diagnostic accuracy of ultrasound versus MRI for rotator cuff tears using arthroscopy as the reference standard.
  3. Diagnostic accuracy of clinical rotator cuff tests compared with arthroscopic findings.
  4. Correlation between MRI-measured rotator cuff tear size and arthroscopic tear dimensions.
  5. Arthroscopic pattern of rotator cuff tears according to age, mechanism of injury, and symptom duration.
  6. Association between duration of symptoms and arthroscopic severity of rotator cuff tears.
  7. Correlation between preoperative functional scores and arthroscopic rotator cuff tear characteristics.
  8. Association of fatty degeneration on MRI with arthroscopic reparability of rotator cuff tears.
  9. Short-term functional outcome after arthroscopic rotator cuff repair: a prospective observational study.
  10. Factors associated with early functional recovery following arthroscopic rotator cuff repair.
  11. Correlation between preoperative tear size and short-term outcome after arthroscopic rotator cuff repair.
  12. Comparison of short-term outcomes after arthroscopic repair of small-to-medium versus large rotator cuff tears.
  13. Association between concomitant biceps pathology and early outcomes after arthroscopic rotator cuff repair.
  14. Arthroscopic prevalence of long-head biceps tendon pathology in patients with rotator cuff tears.
  15. Correlation between clinical biceps tests and arthroscopic long-head biceps tendon pathology.
  16. Diagnostic accuracy of MRI for superior labrum anterior-to-posterior lesions using arthroscopy as reference.
  17. Correlation of clinical tests for superior labral lesions with arthroscopic findings.
  18. Arthroscopic pattern of labral injuries in patients with traumatic shoulder instability.
  19. Diagnostic accuracy of MRI arthrography for glenoid labral lesions using arthroscopy as reference.
  20. Diagnostic accuracy of conventional MRI for Bankart lesions compared with arthroscopic findings.
  21. Arthroscopic spectrum of associated lesions in patients with recurrent anterior shoulder instability.
  22. Prevalence of Hill-Sachs lesions and their association with arthroscopic labral pathology in recurrent anterior shoulder instability.
  23. Correlation between number of shoulder dislocations and arthroscopic severity of labral and chondral lesions.
  24. Comparison of arthroscopic findings in first-time versus recurrent anterior shoulder dislocation.
  25. Association between duration of instability and arthroscopic prevalence of associated intra-articular lesions.
  26. Short-term functional outcome following arthroscopic Bankart repair for recurrent anterior shoulder instability.
  27. Factors associated with early functional recovery after arthroscopic Bankart repair.
  28. Comparison of short-term functional outcomes following arthroscopic Bankart repair in patients with and without small Hill-Sachs lesions.
  29. Correlation between preoperative instability severity and short-term outcome after arthroscopic stabilization.
  30. Interobserver agreement in arthroscopic classification of glenoid labral lesions.
  31. Arthroscopic findings in patients with clinical subacromial impingement syndrome.
  32. Correlation between acromial morphology on radiographs and arthroscopic features of subacromial impingement.
  33. Association between subacromial bursitis severity and clinical pain scores in patients undergoing shoulder arthroscopy.
  34. Short-term functional outcome after arthroscopic subacromial decompression in selected patients with impingement syndrome.
  35. Predictors of early symptomatic improvement following arthroscopic treatment of subacromial impingement.
  36. Correlation between MRI evidence of subacromial bursitis and arthroscopic findings.
  37. Arthroscopic spectrum of lesions in patients with persistent shoulder pain despite conservative management.
  38. Diagnostic yield of shoulder arthroscopy in patients with persistent symptoms and inconclusive imaging.
  39. Arthroscopic findings in patients with adhesive capsulitis undergoing capsular release.
  40. Short-term functional outcome following arthroscopic capsular release for refractory adhesive capsulitis.
  41. Correlation between duration of adhesive capsulitis and early range-of-motion recovery after arthroscopic capsular release.
  42. Comparison of early functional recovery in diabetic and non-diabetic patients undergoing arthroscopic capsular release.
  43. Association between arthroscopic severity of capsular contracture and preoperative restriction of shoulder motion.
  44. Arthroscopic prevalence of cartilage lesions in patients undergoing surgery for recurrent shoulder instability.
  45. Correlation between MRI-detected cartilage abnormalities and arthroscopic chondral lesions of the shoulder.
  46. Interobserver agreement for arthroscopic grading of glenohumeral cartilage lesions.
  47. Arthroscopic spectrum of occult intra-articular lesions in patients with traumatic shoulder pain and apparently normal radiographs.
  48. Correlation between clinical diagnosis and final arthroscopic diagnosis in patients undergoing shoulder arthroscopy.
  49. Comparative analysis of MRI and arthroscopic findings across common shoulder pathologies.
  50. Clinicoradiological predictors of significant arthroscopic pathology in patients undergoing shoulder arthroscopy.

Ankle joint

  1. Correlation between MRI and arthroscopic findings in patients with osteochondral lesions of the talus.
  2. Diagnostic accuracy of MRI for osteochondral lesions of the talus using ankle arthroscopy as reference.
  3. Correlation between MRI grading and arthroscopic grading of osteochondral lesions of the talus.
  4. Association between lesion location and clinical symptoms in arthroscopically confirmed osteochondral lesions of the talus.
  5. Arthroscopic morphological patterns of osteochondral lesions of the talus: a cross-sectional study.
  6. Relationship between duration of symptoms and arthroscopic severity of talar osteochondral lesions.
  7. Association between history of ankle trauma and arthroscopic characteristics of osteochondral lesions.
  8. Short-term functional outcome following arthroscopic debridement and marrow stimulation for osteochondral lesions of the talus.
  9. Factors associated with early functional outcome after arthroscopic management of osteochondral lesions of the talus.
  10. Correlation between lesion size and short-term outcome following arthroscopic treatment of talar osteochondral lesions.
  11. Comparison of short-term outcomes of medial versus lateral talar osteochondral lesions following arthroscopic treatment.
  12. Correlation between preoperative MRI lesion dimensions and arthroscopically measured lesion dimensions.
  13. Interobserver agreement in arthroscopic grading of osteochondral lesions of the talus.
  14. Arthroscopic findings in patients with chronic anterior ankle impingement.
  15. Correlation between radiographic anterior ankle osteophytes and arthroscopic findings in anterior ankle impingement.
  16. Diagnostic accuracy of MRI in anterior ankle impingement using arthroscopy as reference.
  17. Association between sports participation and arthroscopic pattern of anterior ankle impingement.
  18. Short-term functional outcome following arthroscopic debridement for anterior ankle impingement.
  19. Predictors of early improvement after arthroscopic treatment of anterior ankle impingement.
  20. Arthroscopic spectrum of soft-tissue versus bony anterior ankle impingement.
  21. MRI-arthroscopy correlation in posterior ankle impingement syndrome.
  22. Arthroscopic findings in patients with posterior ankle pain and suspected posterior impingement.
  23. Short-term outcome following arthroscopic treatment of posterior ankle impingement.
  24. Comparison of clinical characteristics of patients with bony versus soft-tissue ankle impingement confirmed arthroscopically.
  25. Arthroscopic prevalence and anatomical distribution of synovitis in patients with chronic ankle pain.
  26. Correlation between MRI-detected synovitis and arthroscopic severity of ankle synovitis.
  27. Relationship between arthroscopic synovitis severity and clinical pain and functional scores.
  28. Short-term outcome following arthroscopic synovectomy for chronic ankle synovitis.
  29. Arthroscopic spectrum of intra-articular pathology in patients with chronic ankle instability.
  30. Prevalence of cartilage lesions in patients undergoing arthroscopy for chronic lateral ankle instability.
  31. Association between duration of ankle instability and arthroscopic prevalence of chondral lesions.
  32. Correlation between MRI findings and arthroscopic pathology in chronic lateral ankle instability.
  33. Diagnostic accuracy of MRI for associated intra-articular lesions in chronic ankle instability.
  34. Comparison of arthroscopic findings in patients with recurrent ankle sprains versus isolated chronic ankle pain.
  35. Association between clinical instability tests and arthroscopically detected ligament-related pathology.
  36. Short-term functional outcome following arthroscopic-assisted treatment of selected chronic lateral ankle ligament injuries.
  37. Factors associated with early functional recovery after arthroscopic treatment of chronic ankle instability.
  38. Arthroscopic prevalence of loose bodies in patients with chronic post-traumatic ankle symptoms.
  39. Diagnostic accuracy of radiographs and MRI for ankle loose bodies using arthroscopy as reference.
  40. Short-term outcome after arthroscopic removal of symptomatic ankle loose bodies.
  41. Arthroscopic findings in patients with persistent ankle pain following apparently healed ankle fractures.
  42. Association between previous ankle fracture pattern and subsequent arthroscopic cartilage abnormalities.
  43. Arthroscopic spectrum of post-traumatic intra-articular lesions of the ankle.
  44. Correlation between chronic ankle pain severity and arthroscopic cartilage damage.
  45. Diagnostic yield of ankle arthroscopy in patients with persistent pain and inconclusive imaging.
  46. Correlation between clinical diagnosis and final arthroscopic diagnosis in chronic ankle disorders.
  47. Comparative accuracy of clinical examination and MRI for common intra-articular ankle lesions.
  48. Interobserver agreement in arthroscopic grading of ankle cartilage lesions.
  49. Prevalence and pattern of occult chondral lesions detected during ankle arthroscopy.
  50. Clinicoradiological predictors of significant intra-articular pathology in patients undergoing ankle arthroscopy.

Hip joint

  1. Correlation between MRI findings and arthroscopic findings in patients with suspected acetabular labral tears.
  2. Diagnostic accuracy of conventional MRI for acetabular labral tears using hip arthroscopy as reference.
  3. Diagnostic accuracy of MR arthrography for acetabular labral tears using arthroscopy as reference.
  4. Correlation between clinical impingement tests and arthroscopically confirmed labral pathology.
  5. Arthroscopic morphological patterns of acetabular labral tears in patients undergoing hip arthroscopy.
  6. Association between mechanism of symptoms and anatomical location of arthroscopic labral tears.
  7. Correlation between duration of symptoms and arthroscopic severity of acetabular labral lesions.
  8. Association between patient age and arthroscopic pattern of labral pathology.
  9. Relationship between preoperative functional scores and arthroscopic severity of labral injury.
  10. Short-term functional outcome following arthroscopic management of acetabular labral tears.
  11. Factors associated with early functional recovery following arthroscopic treatment of labral tears.
  12. Comparison of short-term functional outcomes after arthroscopic labral repair versus selective labral debridement in appropriately selected patients.
  13. Correlation between labral tear size and short-term functional outcome following hip arthroscopy.
  14. Interobserver agreement in arthroscopic classification of acetabular labral tears.
  15. Correlation between radiographic parameters of femoroacetabular impingement and arthroscopic intra-articular findings.
  16. Association between alpha angle and arthroscopic cartilage damage in cam-type femoroacetabular impingement.
  17. Association between radiographic pincer morphology and arthroscopic labral pathology.
  18. Arthroscopic spectrum of intra-articular pathology in patients with cam-type femoroacetabular impingement.
  19. Arthroscopic spectrum of pathology in patients with pincer-type femoroacetabular impingement.
  20. Comparison of arthroscopic findings in cam, pincer, and mixed femoroacetabular impingement.
  21. Correlation between duration of femoroacetabular impingement symptoms and severity of arthroscopic chondral damage.
  22. Association between sports participation and arthroscopic pattern of pathology in femoroacetabular impingement.
  23. Short-term functional outcome after arthroscopic treatment of femoroacetabular impingement.
  24. Factors associated with early functional outcome following arthroscopic treatment of femoroacetabular impingement.
  25. Correlation between correction of alpha angle and short-term clinical improvement after arthroscopic treatment of cam impingement.
  26. Comparison of early outcomes between isolated cam and mixed-type femoroacetabular impingement following arthroscopy.
  27. Diagnostic accuracy of MRI for acetabular cartilage lesions using arthroscopy as reference.
  28. Correlation between MRI grading and arthroscopic grading of hip chondral lesions.
  29. Arthroscopic prevalence and distribution of acetabular cartilage lesions in patients with femoroacetabular impingement.
  30. Association between labral tears and adjacent acetabular cartilage damage identified during hip arthroscopy.
  31. Relationship between patient age and severity of arthroscopic chondral lesions of the hip.
  32. Correlation between radiographic joint-space width and arthroscopic cartilage status.
  33. Interobserver agreement in arthroscopic grading of acetabular cartilage lesions.
  34. Prevalence and characteristics of femoral head chondral lesions detected during hip arthroscopy.
  35. Association between body mass index and arthroscopic cartilage damage in patients undergoing hip arthroscopy.
  36. Correlation between preoperative pain severity and arthroscopic chondral damage.
  37. Arthroscopic spectrum of loose bodies in the hip joint and their underlying causes.
  38. Diagnostic accuracy of radiographs and MRI for intra-articular loose bodies using arthroscopy as reference.
  39. Short-term outcome following arthroscopic removal of symptomatic hip loose bodies.
  40. Clinical predictors of occult loose bodies in patients undergoing hip arthroscopy.
  41. Arthroscopic findings in patients with persistent hip pain and inconclusive conventional imaging.
  42. Diagnostic yield of hip arthroscopy in patients with mechanical hip symptoms despite nondiagnostic imaging.
  43. Correlation between clinical diagnosis and final arthroscopic diagnosis in patients with chronic hip pain.
  44. Arthroscopic prevalence of synovial abnormalities in patients undergoing hip arthroscopy for chronic pain.
  45. MRI-arthroscopy correlation in suspected hip synovial disorders.
  46. Relationship between arthroscopic synovitis severity and preoperative pain and functional impairment.
  47. Short-term clinical outcome following arthroscopic synovectomy for selected hip synovial disorders.
  48. Arthroscopic pattern of combined labral and chondral pathology in young adults with mechanical hip symptoms.
  49. Comparative diagnostic performance of clinical examination and MRI for common arthroscopic hip lesions.
  50. Clinicoradiological predictors of significant intra-articular pathology in patients undergoing hip arthroscopy.

Elbow joint

  1. Correlation between MRI and arthroscopic findings in patients with suspected osteochondral lesions of the elbow.
  2. Diagnostic accuracy of MRI for capitellar osteochondral lesions using elbow arthroscopy as reference.
  3. Correlation between MRI grading and arthroscopic grading of osteochondral lesions of the capitellum.
  4. Arthroscopic morphological patterns of capitellar osteochondral lesions in young patients.
  5. Association between sporting activity and arthroscopic severity of capitellar osteochondral lesions.
  6. Correlation between symptom duration and arthroscopic grade of osteochondral lesions of the elbow.
  7. Short-term functional outcome after arthroscopic debridement of selected osteochondral lesions of the elbow.
  8. Factors associated with early functional improvement following arthroscopic treatment of capitellar osteochondral lesions.
  9. Interobserver agreement in arthroscopic classification of elbow osteochondral lesions.
  10. Arthroscopic prevalence and pattern of loose bodies in patients with symptomatic elbow disorders.
  11. Diagnostic accuracy of radiographs versus CT for elbow loose bodies using arthroscopy as reference.
  12. Diagnostic accuracy of MRI in detecting elbow loose bodies using arthroscopy as reference.
  13. Association between mechanical locking symptoms and presence of loose bodies at elbow arthroscopy.
  14. Short-term functional outcome following arthroscopic removal of elbow loose bodies.
  15. Factors associated with recovery of range of motion after arthroscopic loose-body removal.
  16. Arthroscopic findings in patients with post-traumatic elbow stiffness.
  17. Association between duration of elbow stiffness and arthroscopic intra-articular pathology.
  18. Correlation between preoperative range-of-motion restriction and arthroscopic severity of capsular contracture.
  19. Short-term functional outcome following arthroscopic release for selected cases of elbow stiffness.
  20. Predictors of early gain in range of motion following arthroscopic elbow release.
  21. Comparison of early outcomes of arthroscopic release in post-traumatic versus non-traumatic elbow stiffness.
  22. Arthroscopic pattern of osteophytes and impingement in patients with elbow stiffness.
  23. Correlation between CT findings and arthroscopic findings in patients with stiff elbow.
  24. Arthroscopic prevalence and distribution of synovitis in patients with chronic elbow pain.
  25. Correlation between MRI-detected synovitis and arthroscopic synovial abnormalities of the elbow.
  26. Association between arthroscopic synovitis severity and preoperative pain scores.
  27. Short-term clinical outcome following arthroscopic synovectomy for chronic elbow synovitis.
  28. Arthroscopic findings in patients with inflammatory elbow disorders presenting with persistent synovitis.
  29. Comparison of clinical and MRI findings with arthroscopic findings in elbow synovial disorders.
  30. Diagnostic yield of elbow arthroscopy in patients with persistent pain and inconclusive imaging.
  31. Arthroscopic findings in patients with valgus extension overload of the elbow.
  32. Association between overhead sporting activity and arthroscopic posteromedial elbow pathology.
  33. Correlation between radiographic posteromedial osteophytes and arthroscopic impingement findings.
  34. Short-term outcome following arthroscopic debridement for posteromedial elbow impingement.
  35. Arthroscopic spectrum of chondral lesions in patients with chronic elbow instability symptoms.
  36. Correlation between MRI and arthroscopic cartilage grading in the elbow.
  37. Interobserver agreement for arthroscopic grading of elbow cartilage lesions.
  38. Arthroscopic evaluation of associated intra-articular lesions in patients with selected collateral ligament injuries.
  39. Correlation between clinical valgus instability and arthroscopic findings in suspected medial collateral ligament pathology.
  40. Arthroscopic findings in patients with persistent symptoms following elbow dislocation.
  41. Association between history of recurrent elbow instability and arthroscopic chondral damage.
  42. Comparison of arthroscopic findings in traumatic versus atraumatic chronic elbow pain.
  43. Arthroscopic spectrum of pathology in young athletes presenting with mechanical elbow symptoms.
  44. Arthroscopic spectrum of pathology in adults presenting with mechanical elbow symptoms.
  45. Correlation between clinical diagnosis and final arthroscopic diagnosis in common elbow disorders.
  46. Comparison of MRI and arthroscopic findings across common intra-articular elbow pathologies.
  47. Prevalence of occult chondral lesions detected during elbow arthroscopy despite negative radiographs.
  48. Relationship between age and arthroscopic pattern of degenerative intra-articular elbow pathology.
  49. Factors associated with significant arthroscopic abnormalities in patients with chronic unexplained elbow pain.
  50. Clinicoradiological predictors of significant intra-articular pathology in patients undergoing elbow arthroscopy.

Wrist joint

  1. Correlation between MRI findings and wrist arthroscopy in patients with suspected triangular fibrocartilage complex injuries.
  2. Diagnostic accuracy of MRI for triangular fibrocartilage complex tears using wrist arthroscopy as reference.
  3. Diagnostic accuracy of clinical triangular fibrocartilage complex tests using arthroscopy as reference.
  4. Correlation between MRI tear location and arthroscopic classification of triangular fibrocartilage complex injuries.
  5. Arthroscopic pattern of triangular fibrocartilage complex tears in patients with ulnar-sided wrist pain.
  6. Association between mechanism of injury and arthroscopic morphology of triangular fibrocartilage complex tears.
  7. Correlation between duration of symptoms and arthroscopic severity of triangular fibrocartilage complex pathology.
  8. Association between ulnar variance and arthroscopic pattern of triangular fibrocartilage complex lesions.
  9. Relationship between preoperative functional scores and arthroscopic severity of triangular fibrocartilage complex injury.
  10. Short-term functional outcome following arthroscopic debridement of selected triangular fibrocartilage complex tears.
  11. Short-term functional outcome following arthroscopic repair of selected traumatic triangular fibrocartilage complex tears.
  12. Comparison of early outcomes of arthroscopic debridement versus repair for appropriately selected triangular fibrocartilage complex lesions.
  13. Factors associated with early functional recovery after arthroscopic treatment of triangular fibrocartilage complex injuries.
  14. Correlation between arthroscopic Palmer classification and short-term functional outcome of triangular fibrocartilage complex treatment.
  15. Interobserver agreement in arthroscopic classification of triangular fibrocartilage complex tears.
  16. Correlation between MRI and arthroscopic findings in suspected scapholunate ligament injuries.
  17. Diagnostic accuracy of MRI for scapholunate ligament tears using wrist arthroscopy as reference.
  18. Correlation between clinical scapholunate instability tests and arthroscopic ligament findings.
  19. Arthroscopic grading of scapholunate ligament injuries and its association with clinical instability.
  20. Association between duration of wrist injury and arthroscopic severity of scapholunate ligament damage.
  21. Arthroscopic prevalence of associated cartilage lesions in patients with scapholunate ligament injuries.
  22. Short-term functional outcome following arthroscopic management of selected partial scapholunate ligament injuries.
  23. Correlation between MRI findings and arthroscopic findings in suspected lunotriquetral ligament injuries.
  24. Diagnostic accuracy of MRI for lunotriquetral ligament injuries using wrist arthroscopy as reference.
  25. Arthroscopic pattern of intrinsic carpal ligament injuries in patients with chronic wrist pain.
  26. Interobserver agreement in arthroscopic grading of intrinsic carpal ligament injuries.
  27. Arthroscopic prevalence and distribution of occult cartilage lesions in patients with chronic wrist pain.
  28. Diagnostic accuracy of MRI for wrist cartilage lesions using arthroscopy as reference.
  29. Correlation between MRI grading and arthroscopic grading of radiocarpal cartilage lesions.
  30. Correlation between MRI grading and arthroscopic grading of midcarpal cartilage lesions.
  31. Association between previous wrist trauma and arthroscopic prevalence of occult cartilage injury.
  32. Correlation between age and arthroscopic severity of wrist cartilage lesions.
  33. Association between ulnar variance and arthroscopic chondral changes of the ulnocarpal joint.
  34. Interobserver agreement in arthroscopic grading of wrist cartilage lesions.
  35. Arthroscopic prevalence and anatomical distribution of synovitis in patients with chronic wrist pain.
  36. Correlation between MRI-detected synovitis and arthroscopic synovial findings of the wrist.
  37. Relationship between arthroscopic synovitis severity and clinical pain and functional scores.
  38. Short-term functional outcome following arthroscopic synovectomy for selected chronic wrist synovitis.
  39. Arthroscopic spectrum of pathology in patients presenting with chronic ulnar-sided wrist pain.
  40. Arthroscopic spectrum of pathology in patients presenting with chronic radial-sided wrist pain.
  41. Diagnostic yield of wrist arthroscopy in patients with chronic wrist pain and inconclusive MRI.
  42. Arthroscopic findings in patients with persistent wrist symptoms following distal radius fracture.
  43. Association between distal radius fracture characteristics and subsequent arthroscopic cartilage or ligament lesions.
  44. Prevalence of occult intercarpal ligament and triangular fibrocartilage complex injuries identified during arthroscopy in patients with wrist trauma.
  45. Correlation between clinical diagnosis and final arthroscopic diagnosis in patients with chronic wrist pain.
  46. Comparative diagnostic accuracy of clinical examination and MRI for common intra-articular wrist lesions.
  47. Arthroscopic findings in patients with mechanical wrist symptoms despite normal plain radiographs.
  48. Relationship between symptom duration and extent of arthroscopic intra-articular pathology in chronic wrist disorders.
  49. Factors associated with significant arthroscopic abnormalities in patients with unexplained chronic wrist pain.
  50. Clinicoradiological predictors of significant intra-articular pathology in patients undergoing diagnostic wrist arthroscopy.

Not the orthopaedics subspeciality you need? Arthroscopy is one section of our full orthopaedics collection — the hub page lists every subspeciality, each with its own free topic list. Updated September 2026.

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📌 Updated for 2026–2027 MS Orthopaedics Arthroscopy admissions

The page has been reviewed for practical arthroscopy-based studies that can be completed within a routine postgraduate orthopaedic unit.

  • Most projects need standard clinical examination, routine radiography, MRI where clinically indicated, operative arthroscopy records and validated functional scores rather than specialised research-only equipment.
  • Prospective video capture, advanced quantitative imaging or second-look arthroscopy is not required unless it is already part of routine care and specifically justified in the protocol.
  • Good publication potential lies in MRI–arthroscopy concordance, lesion-pattern studies, interobserver agreement, predictors of operative pathology and well-defined short-term outcomes after a single principal arthroscopic procedure.
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  • Introduction / Synopsis
  • Research Question
  • Aim of the Study
  • Primary Objective
  • Secondary Objectives
  • Materials and Methods
  • Inclusion Criteria
  • Exclusion Criteria
  • Sample Size Calculation
  • Methodology
  • Statistical Analysis
  • Ethical Considerations
  • Review of Literature
  • References
  • Gantt Chart / Study Timeline
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Alongside arthroscopy protocols and synopses, support is also available for departmental presentations, journal club presentations, ethics committee presentations, and posters and oral presentations for medical conferences — for postgraduate residents, board trainees and research scholars across India and the GCC. Prepared by a practising doctor with long experience in medical publishing and thesis supervision.

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Arthroscopy research outside India

The topics above work as research questions anywhere — what changes is the document the institution expects, and who approves it before data collection begins. The Gulf equivalent of an Indian synopsis is the arthroscopy research proposal submitted to an institutional review board, and it ordinarily carries three sections an Indian synopsis does not: a Gantt chart, a budget and resources section, and a Declaration of Helsinki statement.

Board and residency programmes — country by country

Saudi Arabia — SCFHS and the Saudi Board. Residency and fellowship training under the Saudi Commission for Health Specialties includes a research project with a set timeline, and the arthroscopy research proposal is the document prepared at the outset and cleared by the institutional review board before recruitment starts.

United Arab Emirates — DHA, DOH Abu Dhabi and MOHAP. Residents training in Dubai, Abu Dhabi and the northern emirates prepare an arthroscopy research protocol for their programme and submit it for institutional review board approval before any data are collected.

Qatar — DHP (formerly QCHP) and Hamad Medical Corporation. A arthroscopy IRB proposal is reviewed before recruitment, with the ethics section written to the institution's own template rather than a generic one.

Bahrain — NHRA. Trainees turning arthroscopy research topics into a project need the proposal cleared by their institutional research and ethics committee before fieldwork begins.

Oman — OMSB. Residency programmes under the Oman Medical Specialty Board include a research component, and the arthroscopy research proposal is the document assessed at the start of it.

Kuwait — KIMS. A arthroscopy study protocol goes to the institutional committee for approval before the project begins.

Arab Board programmes across the region. The Arab Board carries its own research requirement irrespective of the host country, and the arthroscopy proposal follows the same structure throughout.

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Postgraduate degrees — Malaysia, the Gulf and beyond

Malaysia — MMed, the National Medical Research Register and MREC. A arthroscopy dissertation proposal for a Master of Medicine programme carried out in a Ministry of Health facility must be registered on the NMRR and approved by the Medical Research and Ethics Committee before the study begins, and the guidance asks for submission four to six months ahead of data collection. Every investigator on the study team registers on the NMRR as well, so the methodology, ethics and team sections are written in far more detail than an Indian synopsis requires.

PhD and Master's candidates elsewhere. University programmes generally require a full arthroscopy research proposal of roughly 6,000 to 10,000 words, with an extended literature review, a theoretical framework and a detailed methodology chapter.

PhD and MMed proposals are written individually by a medical doctor and revised until the supervisor accepts them. They are not produced by the automated protocol generator.

Enquire about an arthroscopy PhD or MMed proposal →

🔥 Trending research areas in Arthroscopy for 2026–27

Current postgraduate projects are increasingly moving from simple case counts towards reproducible operative phenotyping, better diagnostic methodology and procedure-specific outcomes.

  • Imaging–arthroscopy concordance: MRI remains central, but stronger studies separate sensitivity, specificity and agreement while addressing verification bias and reader blinding.
  • Tissue-preserving arthroscopic strategies: meniscal repair, labral preservation and selective debridement can be studied using clearly defined indications and validated patient-reported outcome measures.
  • Cartilage and osteochondral lesion phenotyping: location, grade, lesion size and associated pathology are increasingly useful when correlated with symptoms and early functional recovery.
  • Standardised arthroscopic documentation: video or image-based grading enables interobserver studies and can reduce the subjectivity of tear morphology, cartilage grading, synovitis and instability classifications.

Protocol and synopsis guidance

What an Arthroscopy protocol must contain

Population and indication: define the joint, presenting syndrome, duration of symptoms, previous treatment and the exact clinical indication for arthroscopy. A study of patients already scheduled for arthroscopy is methodologically different from a study in all patients with suspected intra-articular disease.

Index test and reference standard: if clinical examination, radiography, ultrasound or MRI is being compared with arthroscopy, specify the exact test sequence, the reporting criteria and whether the imaging reader was blinded to operative findings. Arthroscopy should not simply be labelled a gold standard without describing how the joint was inspected and how lesions were classified.

Operative documentation: name the classification used for meniscal, labral, ligament, cartilage, osteochondral or synovial pathology. State whether findings are taken from the operative note, stored images, video review or a structured arthroscopy form, and whether more than one surgeon or reviewer will grade the lesion.

Outcome definition: for postoperative studies, predefine the principal procedure, concomitant procedures, follow-up interval and validated functional score. Combining patients who underwent different additional procedures can make an apparent treatment effect uninterpretable.

Arthroscopy synopsis versus Arthroscopy protocol

An arthroscopy synopsis is the shorter institutional document used for thesis registration. It normally states the research question, objectives, study design, setting, sample, eligibility criteria, variables, planned analysis and ethical safeguards in compact form.

The full protocol should go further by defining the diagnostic pathway and operative measurement process in enough detail for another investigator to reproduce it. In an MRI–arthroscopy study, for example, it should state who reads the MRI, whether that reader is blinded, which arthroscopic compartments are inspected, which classification system is used and how discrepant findings are handled.

For postoperative outcome studies, the protocol should also define rehabilitation, the exact follow-up window and whether patients with concomitant meniscal, ligament, cartilage or bony procedures are excluded, stratified or adjusted for in the analysis.

Sample size and statistical analysis

Diagnostic-accuracy studies: calculate sample size around the expected sensitivity or specificity and the prevalence of the target lesion in the population actually undergoing arthroscopy. A study restricted to patients selected for surgery may have a much higher disease prevalence than the outpatient population from which they came.

Agreement studies: use kappa or weighted kappa for categorical classifications and an appropriate intraclass correlation coefficient for continuous measurements such as tear dimensions. Agreement between MRI and arthroscopy is not the same statistical question as diagnostic accuracy.

Outcome studies: define one primary functional score and one principal follow-up time. Analyse change from baseline where appropriate, and record important confounders such as age, chronicity, cartilage damage and concomitant procedures rather than testing a large number of postoperative variables without a prespecified primary outcome.

Frequently Asked Questions – Arthroscopy Thesis Topics (2026–27)

1. How do I choose a feasible Arthroscopy thesis topic for 2026-2027?

Start with procedures that are already performed regularly in the department and for which imaging, operative findings and follow-up data can be collected consistently. A narrower study on one lesion, one joint and one principal outcome is usually stronger than a broad study combining unrelated arthroscopic diagnoses. Before finalising the topic, estimate the number of eligible cases actually reaching arthroscopy during the available recruitment period.

2. Which study designs are accepted for an Arthroscopy thesis?

Commonly workable designs include prospective or retrospective observational studies, diagnostic-accuracy studies, imaging–arthroscopy correlation studies, interobserver agreement studies, cohorts of patients undergoing a defined arthroscopic procedure and comparative observational studies where treatment selection follows routine clinical care. A randomised trial should be chosen only when the department has the volume, equipoise, follow-up system and supervision needed to run it properly.

3. What should I settle with my guide before registering an Arthroscopy topic?

Settle the joint and lesion of interest, the expected case volume, who will read the imaging, who will record arthroscopic findings, the lesion-classification system, the principal functional score and the follow-up interval. Also decide in advance whether concomitant procedures will be excluded, analysed separately or included as covariates, because that choice can materially change the interpretation of postoperative outcomes.

4. Can I do a retrospective Arthroscopy thesis using operative records and stored images?

Yes, if the operative notes, PACS studies and stored arthroscopy images are sufficiently complete for the variables being studied. Retrospective feasibility should be checked before registration by auditing a sample of records for missing classifications, undocumented compartments, absent preoperative scores and inconsistent follow-up. A retrospective design is weak when the key lesion grade or outcome was not recorded in a standardised way at the time of care.

5. What is the difference between an Arthroscopy synopsis and an Arthroscopy protocol?

The synopsis is the concise document submitted for departmental or university registration, whereas the protocol is the full operational plan for conducting the study. In arthroscopy research, the protocol should contain more detail on surgical selection, imaging blinding, arthroscopic inspection, classification of lesions, operative documentation, postoperative rehabilitation and handling of concomitant procedures than would usually fit into the synopsis.

6. What ethical issues should I address in an Arthroscopy thesis?

Research should not add an arthroscopy, imaging examination, sequence, contrast injection, venepuncture or other invasive procedure solely for data collection unless there is separate scientific and ethical justification. Prospective participants require informed consent, and minors require guardian consent with child assent from about seven years where developmentally appropriate. Record-based or retrospective PACS studies may qualify for a consent waiver if approved by the ethics committee and if confidentiality risks are controlled.

Imaging and arthroscopy files must be anonymised before research review. DICOM headers, screenshots, reconstructed facial or body surfaces and operative videos can retain identifying information even after names are removed. Separate consent should be obtained for identifiable clinical photographs or videos intended for teaching or publication. The protocol should also specify how unexpected MRI, radiographic or operative findings requiring clinical action are escalated to the treating orthopaedic surgeon or reporting radiologist rather than being left inside the research dataset.

7. What is the biggest methodological trap in an MRI-Arthroscopy diagnostic study?

The sharpest problem is partial verification. If only patients with a positive MRI, severe symptoms or a strong surgical indication proceed to arthroscopy, the study no longer verifies the imaging-negative arm in the same way. Sensitivity may appear artificially high and specificity may become unreliable because the analysed sample is enriched for patients already likely to have disease.

The protocol should state exactly how patients were selected for arthroscopy, whether imaging-negative patients were represented, whether the MRI reader was blinded to operative findings and whether the surgeon knew the MRI result before documenting the arthroscopic lesion. Where complete arthroscopic verification is neither ethical nor clinically appropriate, the limitation should be acknowledged rather than presenting the resulting estimates as if they came from an unselected diagnostic cohort.

8. Can an Arthroscopy topic be used for a PhD proposal or board research project outside the Indian MS pathway?

Yes, but the format and methodological depth change. A PhD proposal usually needs a broader research gap, stronger justification of novelty, a more detailed analysis plan and often a programme of linked studies rather than a single MS-style observational project. Board and residency pathways may instead require a focused research project that can be completed during training.

For the Saudi Commission for Health Specialties and Saudi Board, the Arab Board of Health Specializations, and programmes linked to DHP, DHA, DOH or MOHAP, the same arthroscopy question may be suitable if it is rewritten to match the relevant board template, supervision rules, ethics process, institutional data-access requirements and expected project scope. The research question should therefore be preserved while the proposal structure is adapted to the training body rather than copying an Indian MS synopsis unchanged.

9. When should I register an Arthroscopy thesis topic?

Register after the guide has confirmed that the department sees enough eligible patients, the required imaging and operative documentation are routinely available, and the outcome can be measured within the remaining thesis period. Registration before checking case volume, follow-up feasibility and record quality is a common reason an apparently attractive arthroscopy topic later becomes difficult to complete.

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